Waste reduction and high value utilization of jarosite-alunite residue (JAR) produced from the recovery of spent lithium-ion battery

IF 4.8 2区 材料科学 Q1 METALLURGY & METALLURGICAL ENGINEERING Hydrometallurgy Pub Date : 2024-04-25 DOI:10.1016/j.hydromet.2024.106322
Wenke Liu , Ping Li , Qingwei Qin , Wei Zhao , Hailin Zhang , Yunwu Han , Feijie Wu , Qiang Zhang , Shili Zheng , Guangqiang Li
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Abstract

The residue known as jarosite-alunite (JAR) is produced when the leach solution of spent lithium-ion battery is neutralized. This residue typically consists of Fe, Al, Na2SO4, Ni, Co, and Mn. It is classified as both a hazardous solid waste and a secondary resource. A unique hydrometallurgical technique was implemented to recover Na2SO4 and use Al extracted from JAR in high value applications. This extraction process involves phase transformation and NaOH leaching, with the pH adjusted in the range from 10.9 to 14. Initially, the JAR compound underwent dissociation to isolate SO42− as Na2SO4 by means of NaOH at a moderate pH, while the other metals were preserved as a hydroxide residue. Afterwards, aluminum in the hydroxide residue was selectively leached with NaOH leaving Ni, Co, and Mn in the remaining residue. The results indicated that over 93% of Na2SO4 and 86% of Al in JAR were effectively recovered as Na2SO4 and high value-added γ-AlOOH, respectively. Additionally, the enriched Ni, Co, and Mn in the alkaline leach residue were selectively recovered by H2SO4 leaching. The suggested procedure led to a significant decrease in waste by more than 67%, offering a fresh approach to effectively reduce waste and recover metals from JAR.

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锂离子废电池回收过程中产生的焦石棉-铝矾土残渣(JAR)的减废和高值化利用
废旧锂离子电池的浸出液在中和时会产生一种被称为 "箭石-绿泥石(JAR)"的残留物。这种残渣通常由铁、铝、Na2SO4、镍、钴和锰组成。它被归类为危险固体废物和二次资源。我们采用了一种独特的湿法冶金技术来回收 Na2SO4,并将从 JAR 中提取的铝用于高价值应用。该萃取工艺包括相变和 NaOH 浸出,pH 值调节范围为 10.9 至 14。最初,JAR 化合物发生解离,在适度的 pH 值下通过 NaOH 分离出 SO42-,即 Na2SO4,而其他金属则以氢氧化物残留物的形式保留下来。随后,氢氧化物残渣中的铝被 NaOH 选择性地沥滤,剩下的残渣中留下了镍、钴和锰。结果表明,JAR 中超过 93% 的 Na2SO4 和 86% 的铝分别以 Na2SO4 和高附加值的 γ-AlOOH 的形式被有效回收。此外,碱性浸出残渣中富集的镍、钴和锰也通过 H2SO4 浸出得到了选择性回收。所建议的程序使废料大幅减少了 67% 以上,为有效减少废料和从 JAR 中回收金属提供了一种新方法。
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来源期刊
Hydrometallurgy
Hydrometallurgy 工程技术-冶金工程
CiteScore
9.50
自引率
6.40%
发文量
144
审稿时长
3.4 months
期刊介绍: Hydrometallurgy aims to compile studies on novel processes, process design, chemistry, modelling, control, economics and interfaces between unit operations, and to provide a forum for discussions on case histories and operational difficulties. Topics covered include: leaching of metal values by chemical reagents or bacterial action at ambient or elevated pressures and temperatures; separation of solids from leach liquors; removal of impurities and recovery of metal values by precipitation, ion exchange, solvent extraction, gaseous reduction, cementation, electro-winning and electro-refining; pre-treatment of ores by roasting or chemical treatments such as halogenation or reduction; recycling of reagents and treatment of effluents.
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